Static Indicating Devices TRIZ Cases

Vertical layer separation of self-capacitance electrodes and routing leads eliminates touch blind areas while maintaining display image uniformity.

Segmented strip-shaped common electrodes serve as independent touch driving channels to resolve the low report rate bottleneck in In Cell touch displays.

A reflective mold secures a light sensor against external shocks while guiding reflected light for consistent luminance compensation.

An IGZO-based leakage current control component suppresses PMOS leakage to prevent display flickering at low frame rates.

A gate driver back bias circuit applies a lower voltage to light shielding layers of transistors during off-periods.

A shift register circuit uses a noise reduction sub-circuit to control pull-down node potentials and stabilize gate driving signals.

Segmenting pixels into driving blocks reduces signal switching frequency while maintaining threshold voltage correction precision.

A sensing transistor detects electrode shorts in organic light emitting display sub-pixels.

A display apparatus uses a time-division driving circuit to reduce connection conductors.

A multi-panel display uses a detection circuit to identify abnormal signal outputs from individual panels.

Overlapping fingerprint recognition units with sub-light emitting structures eliminates Moiré patterns and improves biometric precision.

A timing controller applies multiple data rates to transmit image frames, distributing signal energy across different frequencies.

A modulation device uses a scan line with variable width to reduce capacitance loading on the substrate.

Segmented powerlines eliminate IR drop caused by voltage differences, ensuring uniform luminosity across the display panel.

A display driver splits D/A conversion into separate circuits to generate precise gradation voltages.

A pixel circuit uses a step-down sub-circuit to lower data voltage at a control node for stable light emission.

Touchscreen gesture recognition initiates wireless content transfer between proximate computing devices.

A data driving circuit adjusts panel color temperature to minimize power consumption while maintaining constant luminance.

Multi-edge pin distribution reduces wiring space on long edges, enabling narrow bezel displays.

Pre-charging units activate the i+2th row while the ith row is active, resolving insufficient charging time at high refreshing frequencies.

Load matching resistors balance scan line capacitance across pixel areas, reducing brightness deviations caused by varying electrical loads.

A pixel circuit uses an analog comparator to control driving module conduction time and degree via triangle-wave signals.

A terminal apparatus suspends automatic light modulation of a touch panel display using proximity and illuminance sensors.

An inorganic anti-peeling layer sits between the second electrode and protective metal oxide coating.

A shift register unit outputs phase-inverted signals to drive double-gate TFTs.

Applying 20 V to the gate for 1 ms recovers threshold voltage stability in oxide semiconductor transistors.

A bandwidth-driven system dynamically adjusts display refresh rates using hardware and software monitoring.

A display panel uses parallel light sensing branches with varying storage capacitor capacitance to detect ambient light intensity.

Ion implantation integrates touch sensing into the encapsulation layer, reducing device thickness while maintaining environmental protection.

A degradation compensation device adjusts analog voltage to increase pixel luminance after digital gradation reduction.

Adjusts column bias voltage dynamically to maintain luminance while minimizing power consumption in electroluminescent displays.

Merging data and gate lines into a single layer eliminates via holes, reducing preparation costs while enabling ultra-narrow bezel displays.

An inverted pixel structure connects the driving circuit to the cathode of a light emitting display device.

Embedded fragmented graphic cores perform object identification and image enhancement locally, reducing signal transmission energy consumption.

A 3D display device uses a human eye tracker to determine viewer positions and dynamically adjust image slices for continuous viewing.

A liquid crystal display device merges touch sensing electrodes and three-dimensional image creation electrodes onto a single substrate assembly.

Moving signal lines to the rear substrate reduces bezel size while maintaining electrical connectivity.

Spaced first and second data lines with a demultiplexer reduce voltage variations from data coupling during charging.

Segmented auxiliary electrodes enhance ion diffusion uniformity and response speed while periodic voltage pulses reduce electricity consumption.

A pixel drive circuit uses unidirectional conduction switches to control leakage current flow and maintain stable pixel voltage.

A liquid crystal projector shifts projected pixel positions across alternating frame periods to modulate light for higher resolution display.

A display panel uses passive light-emitting devices in a first region to enable full screen designs without pixel circuits.

Converting RGB data to subpixel rendering format reduces memory demands while tracking usage to mitigate color shift and burn-in patterns.

Segmented data lines connect independent display domains to eliminate time-sharing voltage signals, reducing power consumption and twinkle in array substrates.

A light control panel between the display and backlight selectively radiates light to peripheral circuit transistors based on their action state.

An adapter device uses a feedback loop to generate compensation voltage for stable logic input during display testing.

Segmenting signal lines and controlling voltage timing minimizes crosstalk caused by slow liquid crystal response times.

A liquid crystal display device uses voltage-controlled electrodes to form lenses or gratings for light modulation.

Synchronizing demux control signals equalizes kickback voltage influence on same-color pixels, preventing current deviation and longitudinal dimming.